of course it is break glucose into pyruvic acid.
High-energy electrons that move down the electron transport chain ultimately provide the energy needed to a. convert ADP molecules into ATP molecules.
Oxygen is the final electron acceptor. Oxygen, with it's great electronegativity, pulls electrons through the electron transport chain where these electrons provide the motive force to pump protons into the outer lumen of the mitochondria. When these protons fall down their concentration gradient oxygen is there to pick then up with the electrons and form water.
the electron transport chain
Chemiosmosis and the electron transport chain's process
http://wiki.answers.com/Q/How_are_electrons_lost_by_chlorophyll_molecules_replaced"They are replaced by electrons donated from water molecules which were split by enzymes in the thylakoids inside chloroplasts.
The difference in H+ concentrations on opposite sides of the inner mitochondrial membrane. During oxidative phosphorylation, NADH and FADH oxidizes at the hydrogen carriers to provide electrons to the electron transport chain (etc) (chain of electron carriers) and H+ ions. As electrons pass through the etc, ATP is synthesized. If energy is ever needed along the process, ATP is used. But i doubt it as the electron do not require external chemical energy to move along the carriers.
Oxygen is the final electron acceptor. Oxygen, with it's great electronegativity, pulls electrons through the electron transport chain where these electrons provide the motive force to pump protons into the outer lumen of the mitochondria. When these protons fall down their concentration gradient oxygen is there to pick then up with the electrons and form water.
the electron transport chain
The Citric Acid Cycle or also know as the Kreb Cycle.
Chemiosmosis and the electron transport chain's process
They help to provide serium to the qualxium through process of molecular transport type A.
At the center of the chlorophyll molecule is a single magnesium atom. It is surrounded by alternating double and single bonds. The double bounds provide the electrons that flow through the electron transport chain.
They help to provide serium to the qualxium through process of molecular transport type A.
Electric waves are produced wherever electrons are accelerated or retarded, that is, whenever the velocity of an electron is changed or accelerated positively or negatively.
It is enerated in plants during the process photophosphorylation (aka. photosynthesis) It is generated in plants through the process of photophosphorylation, in the thylakoid membranes of chloroplasts.
The electron transport chain provides the most energy.
Basically, to provide the motive force so that protons can be pumped into the outer lumen of the mitochondria. There they will fall down their concentration gradient through the ATP-synthase, thus generating ATP.
A proton gradient is established with an electron transport chain, where energy from electrons is donated from an high-energy source (such as food) to provide intracellular enzymes the energy to pump protons across an impermeable membrane in order to form a region with a high concentration of protons. Hope this helps! :)